ATGCTACG
ATGCTACG
ATGCTACG
AI-Powered Mutation Insight

AI Meets Genomics:
Detect Genetic Risks Before They Become Disease

Supercharge your genomics workflow with an AI engine built on Stanford's Evo 2. Analyze DNA mutations, predict disease impact, and unlock next-gen insights for faster, smarter diagnostics.

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Your Analysis Workflow

Our platform guides you through a comprehensive DNA mutation analysis process, leveraging Stanford's Evo 2 AI to deliver accurate pathogenicity assessments.

1

Select Gene

Enter the gene of interest (e.g., BRCA1, TP53) in the search input. The system fetches associated data including gene structure, known variants, and transcript information.

2

Input DNA Mutation

Input the specific mutation or variant (e.g., c.68_69delAG or p.Glu23Ter). The system parses this using HGVS notation and validates your input.

3

Select Analysis Type

Choose your analysis purpose: Pathogenicity Prediction, Disease Association, Population Frequency, or Research Comparison.

4

Run Mutation Analysis

Our AI/ML pipeline is triggered to predict functional impact, check existing variant databases (ClinVar, dbSNP, gnomAD), and compare with known pathogenic/benign mutations.

5

Visualization and Insights

View visual genome maps showing mutation location, protein structure impact (if applicable), and conservation across species.

6

Pathogenicity Scoring

Review results showing classification (Pathogenic/Likely Pathogenic/Benign/Likely Benign/VUS), prediction confidence (%), and supporting evidence from clinical studies.

Powerful Analysis Tools

Unlock groundbreaking insights with tools built to accelerate research and detect diseases early.

  • Predictive Analysis

    Identify potential genetic risks before they manifest into clinical symptoms.

  • Customizable Workflows

    Configure your analysis pipeline to match your specific research requirements.

  • Accelerated Research

    Speed up your biotech research with automated, scalable tools built for discovery.

  • AI-Enhanced Mutation Detection

    Our advanced algorithms identify even the most subtle genomic variations.

  • Disease Identification

    Detect early signs of inherited and complex diseases through genetic pattern recognition.